TTTPS — Byzantine Audit API

One clock is one point of trust.

Distributed systems — inference clusters, CDN networks, payment processors, telco signaling — lean on timestamps to sequence events, block replays, and satisfy regulators. But one clock is one point of trust. Compromise the NTP server, spoof the GPS signal, inject a false clock update — and the entire audit trail is corrupt. Traditional systems catch it after the fact, or never.

TTTPS closes this at the protocol level. Every attestation anchors to multiple independent time sources at once — NIST Roughtime and network time; GPS and colocation PTP (±1µs, SVC target); GEO/KTSat ±10ns — roadmap — bound into a cryptographic commitment chain. Manipulate one source and the others disagree — detected instantly. Replay the same token and the chain registers a verifiable collision.

Three independent layers close every angle of attack.

Three independent layers close every angle of attack — from the moment a token arrives to the moment a regulator reads the log.

Every stage narrows the attack surface.

Multi-stage cryptographic commitment architecture. Each stage narrows the attack surface.

The pipeline ingests independent time sources — NIST Roughtime, network time; GPS and colocation PTP (±1µs, SVC target); GEO/KTSat ±10ns — roadmap — and computes a layered commitment, sealed with an Ed25519 signature over the final chain digest. Tamper at any stage, by any vector, and verification returns a mismatch.

SealingSwitch — Turbo / Full

Adaptive sealing mode based on time-source quality.

Note: internal pipeline architecture proprietary. Contact peter@kenosian.com for technical deep-dive under NDA.

Generate, verify, watch a replay get rejected.

Or via curl:

Step 1: Generate a token

curl -X POST https://api.kenosian.com/api/demo/pot/generate \
  -H "Content-Type: application/json" \
  -d '{"ctx_id":"demo"}'

Expected response:

{
  "status":         "ok",
  "ctx_id":         "demo",
  "timestamp_ms":   1748000000000,
  "lattice_commitment": "a3f9c2...",
  "chain_digest":   "b7c2e1...",
  "signature":      "ed25519-base64...",
  "pubkey":         "acac8eae..."
}

Step 2: Verify (replay attack detection)

curl -X POST https://api.kenosian.com/api/demo/pot/verify \
  -H "Content-Type: application/json" \
  -d '{"ctx_id":"demo","token":"<paste token from step 1>"}'

Step 3: Trigger replay detection

# Submit same token twice → REPLAY detected
curl -X POST https://api.kenosian.com/api/demo/pot/verify \
  -H "Content-Type: application/json" \
  -d '{"ctx_id":"demo","token":"<same token>"}'

{"valid":false,"attack_type":"REPLAY"}

When you need to prove when, not just that.

TTTPS is the right tool when you need to prove when something happened — not just that it happened.

Tamper-evident, ready for submission.

TTTPS generates a tamper-evident audit trail suitable for submission to regulatory bodies.

Open reference, IETF in active submission.

Open-source reference implementation. IETF draft in active submission.

npm install openttt

GitHub: github.com/helm-protocol/openttt
IETF Draft: datatracker.ietf.org/doc/draft-helmprotocol-tttps/
Production API: peter@kenosian.com

One subscription, Byzantine detection included.

Fixed monthly subscription — up to 50M events/month (fair-use). All tiers include Byzantine detection, multi-source Roughtime validation, and audit log retention.

Market reference: DigiCert timestamp authority $0.10–0.50/token. TTTPS: up to 50M events/month (fair-use cap) with multi-source Roughtime + Byzantine detection included.
Annual contract: 2 months free.  ·  Included in all Hydra product bundles.  ·  Hydra-Audit: standalone or bundled (Contact).

API Access

Production API key required.
Contact peter@kenosian.com for access and onboarding.

Proposed mark for explanation only. Any “certified” status is conditional (“could / if adopted”) and would operate under the Kenosian root of trust — not a present-day certification program.